THE PROTOCOL PORT axonometric drawing embedded in Aqaba's logistics terrain.
MANMATIC SYSTEM / THE PROTOCOL PORT / AQABA, JORDAN

ManMaTIC — Protocol Port:

A Thermodynamic Framework for Algorithmic Logistics in Aqaba

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YEAR
2026
SITE
Aqaba, Jordan
TYPE
Human–Machine Protocol Environment
FUNCTION
Human–Machine Collaboration for Logistics Protocol Development
USERS
Students, Developers, Researchers, and Logistics Actors

PROJECT OVERVIEW

Architecture as a Field of Negotiation Between Human Judgment and Machine Intelligence

Protocol Port is a human–machine institute in Aqaba that repositions architecture as an operational field where human judgment and machine intelligence jointly formulate, test, and authorize protocols that govern algorithmic decision-making within on-site logistics. This relationship extends through the building’s spatial and thermodynamic organization: the computing core is cooled, its heat is recovered, and reused to produce chilled water for occupied spaces—making machine operation directly productive of the human environment.

Exterior view of THE PROTOCOL PORT's stone walls and vertical machine infrastructure in Aqaba.

AN OPERATIONAL FIELD OF IMPACT

Protocol Port engages Aqaba’s connected logistics systems—from warehouses and factories to the seaport, airport, truck corridors, and cargo terminals. Its human–machine protocols are developed to support the movement of goods, data, and operational decisions across this wider network.

Aqaba logistics profile map locating THE PROTOCOL PORT between the city, port, and truck corridor.

AQABA AS AN OPERATIONAL FIELD

Aqaba’s logistics territory operates as a continuous exchange between people, goods, data, energy, and infrastructure. Rather than treating the site as a neutral plot, Protocol Port reads these existing flows and operations as active conditions for research, testing, and human–machine collaboration.

Aqaba operational field diagram connecting the digital hub, university, truck yard, logistics cluster, and project plot.

WHY THIS SITE?

The site connects Aqaba’s logistics operations, digital infrastructure, and university research, creating a real field where intelligent systems can be developed, tested, and deployed for local operations.

Site actors and urban syntax diagram over the proposed plot terrain.

Site Actors & Urban Syntax

Mapping the actors and forces shaping the site–logistics flows, infrastructure, environmental systems, and human movement–revealing the urban syntax that organizes the project and informs its spatial formation.

METHODOLOGY

Threshold-Based Spatial Sequence

The project is organized as a sequence of spatial thresholds that gradually structure the relationship between humans and machines. The institution unfolds as a gradual spatial progression embedded within the terrain. This sequence is organized through five operational bands ranging from public understanding and learning to controlled collaboration and machine infrastructure. Each threshold partially contains the next, forming a nested transition that guides users deeper into the institutional system.

How the System is Read

The system is understood through four progressive gradient.

Methodology legend showing machine infrastructure, applied integration, controlled collaboration, and human training.

As users move deeper into the project, knowledge becomes more specialized, access becomes more restricted, control becomes more structured, and machine density increases.

Operational role of each spatial threshold from machine infrastructure to public understanding.

ECOSYSTEM WORKFLOW

Ecosystem workflow from input through research, prototype, incubation, deployment, audit, and output.

PROTOCOL DEVELOPMENT WORKFLOW

Protocol Port operates through an iterative workflow that transforms site data and human expertise into operational protocols. Each proposal moves through research, prototyping, incubation, deployment, and audit, with continuous feedback and human review before it enters real site operations.

Five-stage development sequence from operational terrain to spatial protocol.

FROM OPERATIONAL TERRAIN TO SPATIAL PROTOCOL

THERMODYNAMIC HUMAN–MACHINE EXCHANGE

Exploded axonometric of THE PROTOCOL PORT's thermodynamic machine and building systems.

THERMODYNAMIC HUMAN–MACHINE EXCHANGE

Recovering Machine Heat to Condition Human Space

The system operates as an integrated THERMODYNAMIC infrastructure between the machine core and the building. First, the machine racks are cooled through direct-to-chip cold plates, which capture the heat generated by CPU/GPU processing. Instead of rejecting this heat as waste, the warm water leaving the machine loop is collected, stabilized, and upgraded through a thermal buffer tank and solar thermal booster. This higher-temperature heat is then used to drive an adsorption chiller, producing chilled water that is redistributed to cool the building’s human spaces. In this way, the system performs two operations at once: it protects the machine from overheating and converts machine heat into a usable cooling source for the building.

NARRATIVE

Narrative diagram repositioning the human as an actor who explores, learns, and builds within an operational system.